From Bits to Qubits: Human-Readable Messaging Over Quantum Systems
Damont R Combs · 2025
This study presents a novel approach to quantum communication by enabling the direct encoding of human-readable messages into quantum states for secure transmission. Unlike traditional methods such as cryptographic key sharing or amplitude-phase encoding, our technique maps binary representations of characters onto quantum states, combining simplicity with scalability. Leveraging the unique properties of quantum mechanics, this approach ensures exceptional security against eavesdropping and demonstrates practical viability. Through simulations on a 10-qubit system, we achieved reliable transmission of messages up to five characters with fidelity exceeding 95%. For longer messages (up to 10 characters), a two-part simulation approach maintained high fidelity, exceeding 85%, while demonstrating scalability. Additionally, tests incorporating symbols and numbers revealed the versatility of this encoding method. By bridging the gap between theoretical quantum communication and practical applications, this research opens pathways for secure military communication, robust IoT networks, and hybrid quantum-classical systems. The findings underscore the potential of quantum systems to transform secure messaging by offering a highly scalable, tamper-proof solution for real-world applications.